Research

DNA helix assembly of semiconductors

Harnessing Biology to Build Quantum Materials

I am chromophore and DNA chemist operating at the intersection of synthesis, chemical biology, and quantum information science. My aim: accelerate the discovery of quantum materials by combining synthetic organic chemistry with the massive throughput of biological systems.

Jablonski diagram showing spin states

Quantum Materials Through DNA Assembly

I create organic spin centres from dye molecules. By leveraging DNA, we control their self-assembly with sub-nanometer precision over molecular interactions. This enables me to precisely engineer spin dynamics in ways impossible with traditional chemistry.

My approach: I synthetically install dyes with phosphoramidite groups, allowing us to incorporate large aromatic systems directly onto DNA using solid-phase synthesis. This overcomes hydrophobicity challenges and provides unprecedented control over intermolecular interactions.

High-throughput screening workflow

Key Achievements

  • First observation of two-triplet, four-electron spin quintet states on DNA

  • Programmable exciton arrays on DNA origami nanostructures

  • Single-molecule control of energy flow in excitonic systems

Applications

My bio-inspired platform aims to accelerate development of:

Quantum Information Systems
Organic spin qubits with tunable coherence

Solar Energy & LEDs
High-efficiency light harvesting and emission

Molecular Electronics
Programmable exciton transport for next-generation devices

By bridging chemistry, biology, and physics, I'm creating materials that were previously impossible to make — and exploring how we have speed up this pipeline of discovery.
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